7nm串扰电路设计

Md Arif Iqbal, Naveen Kumar Macha, Bhavana Tejaswini Repalle, Mostafizur Rahman
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引用次数: 4

摘要

串扰是一种创新的计算技术,它利用互连之间不必要的干扰来计算有用的逻辑。耦合电容工程,电路方案和集成是核心功能。本文介绍了串扰技术在10nm以下数字逻辑实现中与CMOS竞争/共存的可扩展性方面。可扩展性是任何新兴技术继续芯片小型化的关键要求。我们的可扩展性研究是与亚利桑那州立大学预测(ASAP) 7nm PDK一起进行的,并考虑了所有工艺变化方面。我们介绍了原始的栅极设计及其在各种变化下的性能。我们讨论了设计约束,以适应最坏情况的变化情况。最后,利用原始栅极,我们展示了来自MCNC基准测试的更大的设计,如cm85a, mux和pcle,并与7nm的CMOS进行了详细的比较。我们的基准测试显示,与CMOS设计相比,上述三种电路在晶体管数量、功率和性能方面的平均性能分别提高了48%、57%和10%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Designing Crosstalk Circuits at 7nm
Crosstalk is an innovative computing technology that utilizes unwanted interferences between interconnects to compute useful logic. Engineering of coupling capacitance, circuit scheme and integration are core features. This paper presents scalability aspects of Crosstalk technology to compete/co-exist with CMOS for digital logic implementations below 10nm. Scalability is a key requirement for any emerging technologies to continue chip miniaturization. Our scalability study is with Arizona State Predictive (ASAP) 7nm PDK and considers all process variation aspects. We present primitive gate designs and their performance under variations. We discuss design constraints to accommodate worst-case variation scenarios. Finally, utilizing primitive gates, we show larger designs such as cm85a, mux, and pcle from MCNC benchmarking suits and detailed comparison with CMOS at 7nm. Our benchmarking revealed, averaging all three above mentioned circuits, 48%, 57% and 10% improvements against CMOS designs in terms of transistor count, power and performance respectively.
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